Technology Integration is a four part series on essential questions, technology integration resources, web page design, and multimedia in projects. Sections contain relevant opening essays and resources.
Part 1: Essential Questions
Essential Questions (Page 2):
Part 2: Technology Integration Resources
Part 3: Web Page Design
Part 4: Multimedia in Projects
This question can be addressed from two perspectives--what we desire for all students, teachers, and providers of education in general and then specific to mathematics.
Various organizations, teachers and students themselves have indicated ways that technology should be used. While the words might differ, there are commonalities among those recommendations. But, the overall reason for using technology in instruction is to reach our ultimate goal as educators, which should be to enhance the achievement of learners.
When considering the types of digital learning available and their range of use, which can be personalized for learners, some "rules of thumb" have emerged. Per Cheryl Lemke (2014), educators do need to consider:
The Instruction, which ranges from the didactic to coaching and inquiry
The Complexity of the Learning, which ranges from basic skills through higher order thinking
The Level of Authenticity, which ranges from simulated, through authentic, real world experiences. (Lemke, 2014)
In the series of Technology Briefs for NCLB Planners, the Northeast and the Islands Regional Technology Consortium (NEIRTEC, 2002) presented Strategies for Improving Academic Achievement and Teacher Effectiveness:
In Maximizing the Impact: "The Pivotal Role of Technology in a 21st Century Education System" (2007), the International Society for Technology in Education (ISTE), The Partnership for 21st Century Skills, and the State Educational Technology Directors Association stated that technology can be used in nine key areas to assist with teaching and learning:
Technology can be used for "information, images, interactions, and inquiry" (Quirk, in Pollock, 2007, p. 102). To this end, ISTE's (2007) release of National Educational Technology Standards for Students: The Next Generation indicated that to learn effectively and live productively in an increasingly digital world, students should know and be able to use technology for creativity and innovation; communication and collaboration; research and information fluency; critical thinking, problem solving, and decision making; digital citizenship; and technology operations and concepts. Students should be able to:
ISTE's 2007 National Educational Technology Standards for Students focused on "using technology to learn." In 2016 ISTE revised those student standards to focus on "transformative learning with technology." The seven standards, along with indicators within each, address empowered learners, digital citizenship, students as knowledge constructors, innovative designers, computational thinkers (this latter being a new addition to the standards), creative communicators, and global collaborators.
Teachers also have expectations regarding the digital tools they use for instructional purposes. Per its survey of a national representative sample of more than 31,000 U.S. public school teachers, the Bill & Melinda Gates Foundation (2014) found that teachers identified six instructional purposes for which digital instructional tools are beneficial. Hence, one could conclude that the following per those teachers are additional ways that technology can be used:
- Delivering instruction directly to students
- Diagnosing student learning needs
- Varying the delivery method of instruction
- Tailoring the learning experience to meet individual student needs
- Supporting student collaboration and providing interactive experiences
- Fostering independent practice of specific skills (p. 9).
When used for professional development, "technologies as videoconferencing, online learning, networking, and instant messaging can support professional development and professional learning communities. Using technologies like these, educators can learn and collaborate with peers, mentors, experts and community members routinely. They can build ongoing professional relationships, develop capacity in teaching 21st century skills, benefit from just-in-time communications, and reduce the time and expense of travel" (Maximizing the Impact, 2007, p. 13).
Indeed, teachers need more technological skills to be able to effectively integrate technology into classroom lessons, according to the United Nations Educational, Scientific, and Cultural Organization (UNESCO, 2008). In order to form some consensus about those skills, many of which were noted above, and to determine a plan for their acquisition, UNESCO and colleagues Cisco, Intel, Microsoft, the International Society for Technology in Education and the Virginia Polytechnic Institute and State University set up the ICT Competency Standards for Teachers project. The ICT Competency Standards for Teachers (UNESCO, 2008) includes three booklets: (1) a policy framework, (2) the standards in modular format with a skill set matrix, and (3) implementation guidelines. The latter is actually a syllabus with detailed descriptions of the specific skills to be acquired by teachers within each skill set/module: policy, curriculum and assessment, pedagogy, the use of technology in the classroom, school organization and administration, and teacher professional development. It can serve as a basis for developing professional development programs and teacher education, and as a checklist for skills acquired.
Also from a general perspective, district leaders also need to use technology. "Technology can support administration in providing instructional leadership, managing learning environments and professional learning communities, and making decisions that support proficiency in 21st century skills. Networking technologies, for example, can support administrators in communicating with staff members, parents and community members. Data management systems enable states, districts and schools to make sense of the mountains of data they collect, monitor technology and other resources, and track trends in student achievement. In this sense, technology is a “data tool for education to better understand and inform educational and instructional decision making” (Maximizing the Impact, 2007, p. 13).
Visit Teaching NOW!, an online television and radio series that investigates the relationships between education and technology. The series, funded in part by the U.S. Department of Education, explores issues, ideas, and strategies surrounding education and teaching.
The Center for Digital Education conducts an annual Digital School Districts Survey and the resulting awards "recognize exemplary use of technology by school boards and districts." See district winners and how they are using technology to improve educational outcomes (e.g., data analytics, digital literacy curriculum, 1:1 initiatives, e-learning, and more).
Mobile devices have the potential to support learning.
Research highlights pedagogy for mobile learning.
In their research, Viewing Mobile Learning from a Pedagogical Perspective, Kearney, Schuck, Burden, and Aubusson (2012) characterized the pedagogy of mobile learning from socio-cultural theory, which led to their highlighting three key features of mobile learning: authenticity, collaboration and personalization. "The authenticity feature highlights opportunities for contextualized, participatory, situated learning; the collaboration feature captures the often-reported conversational, connected aspects of m-learning while the personalisation feature has strong implications for ownership, agency and autonomous learning" (Conclusion section).
Students have their views on using mobile devices.
Mobile devices permeate our daily lives. The rise in student access to these electronic devices (e.g., cell phones, pagers, portable game units, laptops, MP3 players, smart phones, graphing calculators) has led to a national discussion about their potential to support learning in schools. According to selected findings from a national survey conducted by Project Tomorrow, titled Speak Up 2008 for Students, Teachers, Parents and Administrators, students in grades 6–12 have their views on how they want to use mobile devices in their schoolwork. If given the opportunity, they would use mobile devices to:
Leading educators have views on mobile devices.
In their video, Educating the Mobile Generation, Elliot Soloway of the University of Michigan and Cathie Norris of the University of North Texas share their road trip through Texas and Louisiana to see firsthand how mobile devices are being used in schools. Both are convinced it is inevitable that mobile devices will be mainstream in schools. According to Soloway, education in the 21st century will require a transformation from "learning what to learning how." There will be a range in models for change, but its evolution, not revolution. As one interviewed teacher stated, the goal of technology use is for promoting achievement, not to use technology for the sake of technology's availability. This video is in the collection Technology and 21st Century Learning, which is one of three video albums from New Learning Institute.
While it might be inevitable that mobile learning devices will become mainstream, as Soloway and Norris predict, there are concerns about permitting their use in schools with invasion of privacy, cyberbullying, and cheating being examples of misuse. The Center for Education Policy and Law at the University of San Diego tackled such concerns in its Electronic Communications Devices (ECDs) Project (October 2010). Educators will find the following resource from the project of value: Free speech and privacy dimensions of student misuse of their own electronic communication devices (2012).
Try a few math apps for your mobile phones.
Don't forget this reminder, however: Whenever considering to download any mobile application, you should first evaluate it. Pay attention to who developed the app, and the reviews that the app has received.
Math4Mobile offers five apps for teaching and learning mathematics on your mobile phone. They are free downloads and you can try them out online before downloading. They are: Graph2Go, a graphing calculator; Solve2Go for equations and inequalities; Quad2Go for learning about quadrilaterals; Sketch2Go, a qualitative graphing tool that includes seven icons to use in sketching graphs; and Fit2Go, a linear and quadratic function graphing tool and curve fitter.
Ted Hasselbring, Alan Lott, and Janet Zydney (2005) noted six purposes of technology use for supporting student mathematical learning and their development of declarative, procedural, and conceptual knowledge:
Elaborating on those, The Partnership for 21st Century Skills (P21) developed ICT Literacy Maps for core subject areas to illustrate how technology assists with attaining and utilizing 21st century skills. Representative ways that technology can be used in mathematics at grades 4, 8, and 12 are included. For example, thoughts derived from the Math ICT Literacy Map:
Newspapers, books, spreadsheets, graphing programs, calculators, computers, Internet, films, TV programs, Websites, databases, internet and digital libraries can help students gain information and media literacy. They are sources for the study of data analysis.
Word processing programs, graphic programs, presentation software, desktop publishing programs can help students gain communication skills. These are applicable for math projects.
Word processing software, manipulatives, calculators, graphing calculators, spreadsheet software, probes, GPS, and geometry tool software are useful for developing critical thinking and systems thinking. Use these tools when problem-solving, keeping journals of mathematical experiences, and creating graphical representations of data, for example.
Manipulatives, calculators, graphing calculators, Smart Boards, and presentation software help students to develop problem identification, formulation, and solution skills.
Digital cameras, laptop computers, multimedia presentation software, graphing calculators, probes/CBRs, Website development software can be used to enhance creativity and intellectual curiosity. For example, students might take photos showing geometry representations in their surroundings and create a math slide show.
Calculators, computers, newspapers, Internet, spreadsheet programs, presentation software, video equipment can help build interpersonal, self-direction, and collaborative skills. Students might create portfolios with examples of problem-solving situations in real life, or reflections on their problem-solving and thinking, and their understanding and learning of math concepts.
Internet, presentation software, word processing, desktop publishing can be used to communicate with students in other communities or countries, participate in national math competitions, or to discuss concepts with outside experts in online bulletin boards. These become tools for accountability and adaptability.
Internet, presentation software, newspapers can be used for community service projects, and for collecting data to be analyzed with math tools and then making reports on local issues. Such use enhances and develops social responsibility.
The National Council of Teachers of Mathematics (2011) views technology as an essential tool for learning mathematics and acknowledges that teachers and curriculum play a critical role. Per NCTM:
Technological tools include those that are both content specific and content neutral. In mathematics education, content-specific technologies include computer algebra systems; dynamic geometry environments; interactive applets; handheld computation, data collection, and analysis devices; and computer-based applications. These technologies support students in exploring and identifying mathematical concepts and relationships. Content-neutral technologies include communication and collaboration tools and Web-based digital media, and these technologies increase students’ access to information, ideas, and interactions that can support and enhance sense making, which is central to the process of taking ownership of knowledge. Findings from a number of studies have shown that the strategic use of technological tools can support both the learning of mathematical procedures and skills as well as the development of advanced mathematical proficiencies, such as problem solving, reasoning, and justifying. (NCTM, 2011, para. 2)
P21 in collaboration with the Mathematical Association of America, NCTM, and dozens of math educators also developed The Math Map (2012), which provides connections between the Common Core State Standards and 21st Century Skills. Lesson plans, learning outcomes, and suggested tools for integrating the skills are provided with examples for grades 4, 8, and 12.
Mobile Devices: Facing Challenges and Opportunities for Learning
Read Dr. Patricia Deubel's commentary "Mobile Devices: Facing Challenges and Opportunities for Learning" featured March 19, 2009, in T.H.E. Journal.
In general, technology types used for learning might fall into nine categories, the selection of which would be determined by the content that is being taught, how it is taught, and a decision on what type of technology would best help in achieving instructional goals. Types include:
In addition, there are technologies specific for teaching mathematics, which can also enhance development of declarative, procedural, and conceptual knowledge. Mark Schneiderman (2006) identified the following courseware and digital content types:
Tutorials: Programs are used to introduce math concepts and then to provide practice, assessing learners as they progress. The primary focus is on identification of existing knowledge / formative assessment and acquisition of new information / development of new skill. The secondary focus is on application of new information / practice of new skill and demonstration of mastery / summative assessment.
Skill-Building / Drill & Practice: Unlike tutorials, these programs assume learners have some prior knowledge. The primary focus is on application of new information / practice of new skill. The secondary focus is on acquisition of new information / development of new skill and demonstration of mastery / summative assessment. There are levels of difficulty to meet learner needs, often with hints, explanations, and graphical representations. Programs are often in game format.
Comprehensive Courseware: Programs provide a core curriculum with support for the learning process and might combine tutorials, practice, and assessment. Skill mastery is tracked; a student data management and reporting system is often included to inform instruction.
Problem-Solving: Programs require learners to use specific math skills to solve challenges or puzzles. Focus is on application of new information / practice of new skill and refinement of meta-skills. Problems presented might have one correct answer and/or one solution path or multiple correct answers and paths.
Test Prep: These programs assess knowledge, particularly for standardized test preparation. The focus is on application of new information / practice of new skill and demonstration of mastery / summative assessment.
Simulations & Visualization: Multimedia simulations are often embedded in applications above, and can also be stand-alone. They can be used to help learners visualize and interactively explore concepts, and apply new conceptual knowledge to real-world situations. Some video-based simulations are less interactive. Focus is on acquisition of new information / development of new skill and application of new information / practice of new skill.
Educational or Serious Games: Schneiderman (2006) said this "new category of courseware is emerging designed around more authentic gaming concepts. These applications provide more immediate and ongoing feedback, require more concentrated and lengthy attention, allow repeated practice, motivate increased time on task, and employ a very leveled and contextual approach to building skills and knowledge" (p. 11). The primary focus is on acquisition of new information / development of new skill and application of new information / practice of new skill. Secondary focus on identification of existing knowledge / formative assessment, demonstration of mastery / summative assessment, and refinement of meta-skills.
According to Marc Prensky (2005), today's students have mastered a variety of tools and "[e]ducating or evaluating students without these tools makes no more sense to them than educating or evaluating a plumber without his or her wrench" (p. 12). Prensky indicated that their system of communication involves instant messaging, sharing information through blogs, buying and selling on eBay, exchanging through peer-to-peer technology, creating with Flash, meeting in 3D worlds, collecting via downloading, coordinating and collaborating through wikis, searching with Google, reporting via their camera phones, programming, socializing in chat rooms, and let us not forget learning via Web surfing. Their tools are just extensions of their brains.
The use of these new tools is among trends driving our global economy (Anderson, 2006). These tools "harness the wisdom of the crowd," enable "a shared culture of fandom, commentary, and camaraderie" to be developed, and ultimately are taking the Information Age to a new level, which Chris Anderson (2006) calls the "Age of Peer Production" (p. 132).
Although teachers know it's not the medium, but instructional methods that cause learning, some might be tempted to use new media in instruction (e.g., virtual worlds, gaming environments, blogs, wikis, intelligent agents, iPods, MP3 files and players) without a clear plan for an educational outcome. After all, their students appear to have already mastered many of those, as Prensky noted, and are quick to try out new tools as they become available. However, technology should not be implemented just for the sake of adopting technology. It must serve a role in learning.
With all the options for using technology, new hardware, software and app products springing up on the market, and schools adopting 1-to-1 approaches to technology integration, decisions must be made carefully when selecting new technology.
In a nutshell, David Thornburg (2014) provided three guiding principles for choosing computers for schools. Consider in order:
His reasons for why this process is important deal with cost and time. "First, these tools are expensive and schools need to get as much use out of them as possible. Second, time in the classroom is scarce, and it needs to be used wisely" (p. 28).
Vicki Hancock (1992) discussed the LOCATE Model (learners, outcomes, comparison, assembly, trial, and evaluation) for selecting and evaluating instructional media. According to this model, those who select media should consider the needs of the intended learners, and whether or not the outcomes of instruction require media. Potential media should be compared for authenticity, suitability, organization, technical quality, and special features. The assembly component requires gathering and ensuring that all components (e.g., hardware, software, room/environmental considerations, support staff/volunteers) are available so that the media will be totally usable by the learners. Hancock suggested a trial period before purchase to test the product with learners for their reactions and to determine if the product includes subject matter as intended. Evaluation should include "an appraisal of the materials themselves and of the methods used to integrate them into learning activities" (para. 9).
It would also seem wise to consider some basic parameters for selecting applications to help prevent students and educators from becoming "app-a-holics" --a term William Tolley (2015) used for mass accumulation of apps that end up overwhelming students and educators. Tolley noted five parameters to help simplify the selection process. Apps should have direct relevance to class goals, and not be redundant (i.e., don't choose two apps that essentially do the same thing). Apps should be flexible, where possible, in terms of being operable cross-platform and cross-device. They should be authentically useful, which means the best apps are also useful to learners outside the school environment, and have longevity.
Joel Smith and Susan Ambrose (2004, online pp. 1-2) of Carnegie Mellon University posed seven more detailed questions to help educators think in a systematic way about how and when to incorporate any new pedagogical strategy, including media, into instruction. Their fundamental questions included:
What is the educational need, problem, or gap for which use of new media might potentially enhance learning?
Would the application of new media assess students' prior knowledge and either provide the instructor with relevant information about students' knowledge and skill level or provide help to students in acquiring the necessary prerequisite knowledge and skills if their prior knowledge is weak?
Would the use of new media enhance students' organization of information given that organization determines retrieval and flexible use?
Would the use of new media actively engage students in purposeful practice that promotes deeper learning so that students focus on underlying principles, theories, models, and processes, and not the superficial features of problems?
Would the application of new media provide frequent, timely, and constructive feedback, given that learning requires accurate information on one's misconceptions, misunderstandings, and weaknesses?
Would the application of new media help learners develop the proficiency they need to acquire the skills of selective monitoring, evaluating, and adjusting their learning strategies? Some call these metacognitive skills.
Would the use of new media adjust to students' individual differences given that students are increasingly diverse in their educational backgrounds and preferred methods of learning?
Noel Enyedy's (2014) review of personalized learning revealed a final question to consider in the selection process: Does software align to standards?
Setting aside the controversy surrounding national academic standards, where academic standards are in place educators adopting instruction via technology should insist that developers provide software aligned with the standards. ... Adopters might also consider seeking software that reflects national assessment systems being developed (such as the Smarter Balances Assessments), so that instructional systems parallel accountability systems and can possibly alleviate some of the onerous and time consuming aspects of testing to the high standards set by the Common Core and Next Generation Science Standards. (p. 22)
If you can answer "yes" to one or more of the above questions when considering using a particular strategy or a new media, then your selection has a chance of making a difference in learning.
Principles of universal design should also be considered when selecting media for use in an instructional program. In fact, the phrase "universal design for learning" occurs multiple times within the Every Student Succeeds Act. For example, local educational agencies are encouraged to "use technology, consistent with the principles of universal design for learning, to support the learning needs of all students, including children with disabilities and English learners" (114th Congress, 2015, Sec. 4104. State Use of Funds, p. S.1177-172).
Universal Design for Learning (UDL) from the Center for Applied Technology calls for students to have multiple means of expression, representation, and engagement in their learning. Materials provide those elements and have scaffolds built in (Deubel, 2003). UDL is tied to accessibility.
"Accessibility refers to the design of apps, devices, materials, and environments that support and enable access to content and educational activities for all learners. In addition to enabling students with disabilities to use content and participate in activities, the concepts also apply to accommodating the individual learning needs of students, such as English language learners, students in rural communities, or students from economically disadvantaged homes. Technology can support accessibility through embedded assistance—for example, text-to-speech, audio and digital text formats of instructional materials, programs that differentiate instruction, adaptive testing, built-in accommodations, and other assistive technology tools" (U.S. Department of Education, 2016, p. 3).
For students with disabilities (e.g., vision, hearing, learning), technology use may pose unintended barriers to learning. "[F]eatures such as text-to-speech, speech-to-text, enlarged font sizes, color contrast, dictionaries, and glossaries should be built into educational hardware and software to make learning accessible to everyone" (U.S. Department of Education, 2016, p. 19). Regular access to Closing the Gap, a Web site devoted to computer technology in special education and rehabilitation, will provide articles, product information, discussion forums, and other resources of value on accessibility.
If you want to evaluate technology and how effective it is being used in the classroom, consider answering the following questions that Steven Anderson (2015) provided:
- Who is using the technology?
- If you took the technology away, how different would the lesson be? Anderson stated, "Ultimately technology should enable students to do something they couldn't do without it."
- How much variety with the technology is there? Are students using "different sites, apps, or programs?"
- What opportunities do students have to collaborate with or through the technology?
- What opportunities do students have to create new knowledge or products with the technology? (Anderson, 2015)
Steven Ross and Deborah Lowther (2009) indicated a major goal in today's education is preparing students for higher education and careers. Three forms of technology applications show promise for using "technology reflectively and scientifically to make teachers and curricula more effective." These include "as a tutor, as a teaching aide, and as a learning tool" (p. 21). The first two of those help teachers to address individual needs, and the latter can help learners acquire 21st century skills such as "searching the Internet, creating graphs and illustrations, and communicating through multimedia presentations" (p. 21). As a tutor, computer assisted instruction can provide students with extra practice on key skills and content, provide remediation instruction, provide enrichment activities, and provide alternative ways to teach material for deeper learning. As a teaching aide, tools such as whiteboards enable teachers to better orchestrate their lessons; clicker response systems enable timely feedback to questions that teachers pose (pp. 20-21).
Among key messages from a January 2012 joint position statement, Technology and Interactive Media as Tools in Early Childhood Programs Serving Children from Birth through Age 8, the National Association for the Education of Young Children and the Fred Rogers Center for Early Learning and Children’s Media at Saint Vincent College (2012) stated:
Effective uses of technology and media are active, hands-on, engaging, and empowering; give the child control; provide adaptive scaffolds to help children progress in skills development at their individual rates; and are used as one of many options to support children’s learning. Technology and interactive media should expand children’s access to new content and new skills. When truly integrated, uses of technology and media become routine and transparent—the child or the educator is focused on the activity or exploration itself and not on the technology. (Key Messages Summary, p. 1)
While the above statement applies to technology use in early childhood programs, the position could be adopted for all learners. I found in my own research that with any educational intervention, the effectiveness of technology depends upon the appropriate selection and implementation of that technology to meet teaching and learning goals. Once selected, technology-use must be a regular, integral part of an instructional program and not viewed as an add-on in order to have a positive effect on achievement (Deubel, 2001).
As an example, look to Project RED (2010), a national research initiative that contributed nine key technology implementation factors leading to academic success, specifically in reducing dropout rates, increasing graduation rates, reducing disciplinary actions and improving high-stakes test scores. Its survey involving 997 schools with varying levels of technology integration and diverse student populations revealed the following in rank order:
Owing to the personal, mobile, social, and networked nature of today's technology, opportunities to improve educational efficacy might lie in areas beyond personalized instruction systems, which have been the focus of much of the technology developed for schools, per Noel Enyedy (2014). After more than 30 years of personalized instruction, research from large-scale studies and meta-analyses still reveals incremental change with "mixed results ranging from modest impacts to no impact" (p. 15). Enyedy commented on a new metaphor of learning:
The type of computer technology that many believe will lead to transformational change will be technologies built around the process of learning and that attempt to enhance human-to-human interaction, not supplant it: technologies that spark conversations and inquiry; technologies that support these conversations with tools for visualization, simulation, analysis and communication; technologies that allow the students to create physical or computational objects; and technologies that allow students to share their ideas and solutions with their peers and larger social networks for feedback and refinement. (p. 16)
However, much thought goes into selection and requires an understanding of the complex relationship among technology, pedagogy, and content. A change in any one of those three affects the other two, according to Punya Mishra and Matthew Koehler (2006). As such they indicated, "there is no single technological solution that applies for every teacher, every course, or every view of teaching" (p. 1029). Further, technological, pedagogical, and content knowledge (TPACK) is the basis of good teaching with technology. In order to make a technology selection that has a chance at being effective, the teacher needs to consider those TPACK factors in relation to each other and should have acquired:
an understanding of the representation of concepts using technologies; pedagogical techniques that use technologies in constructive ways to teach content; knowledge of what makes concepts difficult or easy to learn and how technology can help redress some of the problems that students face; knowledge of students’ prior knowledge and theories of epistemology; and knowledge of how technologies can be used to build on existing knowledge and to develop new epistemologies or strengthen old ones. (Mishra & Koehler, 2006, p. 1029)
As a bottom line, Mark Schneiderman (2004), Director of Education Policy at the Software & Information Industry Association (SIIA), confirmed "education technology is neither inherently effective nor inherently ineffective; instead, its degree of effectiveness depends upon the congruence among the goals of instruction, characteristics of the learners, design of the software, and educator training and decision-making, among other factors" (p. 30). "Proper planning, teacher training, school leadership, technical support, configured hardware, network infrastructure and Internet access, pedagogy and instructional use, intensity of software use" (SIIA, 2009, p. 2) all play a role in an effective implementation.
For additional reading on this topic, consider the complimentary e-book from Atomic Learning: Proven Approaches to Effective Tech Integration: Strategies & Solutions for School Leaders. This guide will also help school leaders to understand TPACK, the SAMR model, Bloom's Taxonomy, and more.
Note, the SAMR (Substitution, Augmentation, Modification, Redefinition) model was developed by Dr. Ruben Puentedura and offers a method of seeing how computer technology might impact teaching and learning--see SAMR and Bloom's Taxonomy: Assembling the Puzzle (2014). If you are not familiar with the SAMR model, the following videos might also help you:
The Great Debate: Effectiveness of Technology in Education
Read Dr. Patricia Deubel's commentary "The Great Debate: Effectiveness of Technology in Education" featured November 8, 2007, in T.H.E. Journal.
Resistance and what to do about it
According to David Roh (cited in O'Hanlon, 2009, p. 32), "There are hundreds of reasons why teachers don't want to use technology. "While exact figures of how many teachers are not using technology in instruction are unknown, Charlene O'Hanlon (2009) pointed out that "anecdotal evidence from vendors and school districts alike indicates resistance to technology adoption is still a problem among a significant portion of the teacher population" (p. 32). They will resist if they are not shown the value that a technology will bring to the classroom, and if they are told they must use it and are given a deadline for doing so. Their resistance might also stem from a fear of students knowing more than they do about a particular technology, which might happen if they lack a firm grasp of the technology.
In any approach to integrating technology in instruction, O'Hanlon (2009) suggested that teachers need to be able to learn a technology gradually, and be given time to learn it. Comprehensive training from vendors with follow-up professional development and support within the district will help resolve the resistance issue, as will a peer-to-peer mentoring program. If all else fails, districts might even consider financial incentives for learning and adopting the technology. For some, all it might take to convince a teacher to give the technology a try is for them to see how using the technology impacts students, and to witness the excitement of the early adopters. /p>
In a nutshell, elementary principal Rob Furman (2013) would most likely call overcoming resistance to technology integration as "Do It on Their T.E.R.M.S." -- a great phrase he posed indicating what teachers need: Time, Encouragement, Resources, Modeling, and Shared success.
Activities to Try
The following activities should help convince you to give technology a try.
See the Technology Integration Matrix (TIM) developed for K-12 teachers in Florida. The TIM has 25 cells created by associating five levels of technology integration (entry, adoption, adaptation, infusion, and transformation) and five characteristics of meaningful learning environments (active, collaborative, constructive, authentic, and goal directed). Each cell includes a link to one or more videos that show technology integration in classrooms where only a few computers are available and/or classrooms where every student has access to a computer. Descriptions of projects learners did and technology requirements are provided so that others might use the same project in their classrooms.
Read the online book: Orey, M.(Ed.). (2001). Emerging perspectives on learning, teaching, and technology. Retrieved from http://epltt.coe.uga.edu/index.php This book is freely available online with articles, videos, animations, narrations, and images on learning and cognitive theories, instructional theories and models, inquiry and direct instruction strategies, and more. It's continually updated. You'll also find discussion on technology tools for teaching and learning.
114th Congress of the United States. (2015). Every Student Succeeds Act. Retrieved from http://www.ed.gov/esea
Anderson, C. (2006, July). People power: Blogs, user reviews, photo-sharing--the peer production era has arrived. Wired, 132.
Anderson, S. (2015, June 3). Evaluating technology? Here's what to look for [Web log post]. Retrieved from http://blog.web20classroom.org/2015/06/evaluating-technology-heres-what-to.html
Bill & Melinda Gates Foundation. (2014). Teachers know best: What educators want from digital instructional tools. Retrieved from http://collegeready.gatesfoundation.org/2015/05/teachers-know-best-2/
Deubel, P. (2003). An investigation of behaviorist and cognitive approaches to instructional multimedia design. Journal of Educational Multimedia and Hypermedia,12(1), 63-90. Retrieved from http://www.ct4me.net/multimedia_design.htm
Deubel, P. (2001, Summer). The effectiveness of mathematics software for Ohio proficiency test preparation. Journal of Research on Technology in Education, 33(5). Note: See http://eric.ed.gov/?id=EJ635497
Enyedy, N. (2014). Personalized instruction: New interest, old rhetoric, limited results, and the need for a new direction in computer-mediated Learning. Boulder, CO: National Education Policy Center. Retrieved from http://nepc.colorado.edu/publication/personalized-instruction
Furman, R. (2013, November 6). Do it on their T.E.R.M.S. [Web log post]. Retrieved from http://www.huffingtonpost.com/rob-furman/do-it-on-their-terms_b_4219125.html
Hancock, V. (1992). LOCATE: Matching media with instruction. ASCD Curriculum/Technology Quarterly, 1((4), 1-2.
Hasselbring, T. S., Lott, A. C., & Zydney, J. M. (2005). Technology-supported math instruction for students with disabilities: Two decades of research and development. Washington, DC: American Institutes for Research. Retrieved from http://www.cited.org/index.aspx?page_id=13
Hubbell, E. R., & Miller, K. (2013, March 14). Common core quick start: Incorporating digital devices into common core lessons. ASCD Express, 8(12). Retrieved from http://www.ascd.org/ascd-express/vol8/812-hubbell.aspx
International Society for Technology in Education. (2016). ISTE standards for students 2016. Retrieved from http://www.iste.org/standards/standards/for-students-2016
International Society for Technology in Education. (2007). National educational technology standards for students: The next generation. Retrieved from http://www.iste.org/standards/standards/standards-for-students
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